Ekona Power utilizes methane pyrolysis technology to convert natural gas into low-cost, clean hydrogen and solid carbon, producing 90% fewer greenhouse gas emissions compared to traditional steam methane reforming. This scalable solution is deployable at any location with existing natural gas infrastructure, providing industrial sectors with a practical method to decarbonize operations without relying on carbon capture or water feedstock.
Funding
$72.6M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Founders
Product
Problem
Traditional steam methane reforming, the conventional method for producing hydrogen, results in significant greenhouse gas emissions and often relies on carbon capture and storage (CCS) infrastructure, clean electricity, or water feedstock, increasing costs and complexity. Many industrial sectors lack cost-effective and scalable solutions for decarbonizing their operations using existing natural gas infrastructure.
Solution
Ekona Power offers a methane pyrolysis technology that converts natural gas into clean hydrogen and solid carbon, reducing greenhouse gas emissions by 90% compared to steam methane reforming. The xCaliber reactor utilizes pulsed combustion and high-speed gas dynamics to split natural gas, providing a lower-cost alternative to blue hydrogen solutions without requiring CCS, clean electricity, or water feedstock. This technology enables industrial sectors to decarbonize operations by deploying the reactor wherever natural gas infrastructure is already available. The resulting solid carbon can be commercialized, adding economic value and reducing the overall GHG intensity.
Target Audience
The primary target audience includes industrial sectors such as agriculture, mining, energy, petrochemical, and construction that require low-cost, scalable clean hydrogen production for decarbonizing operations.
Features
- xCaliber reactor employing methane pyrolysis for clean hydrogen production
- Pulsed combustion and high-speed gas dynamics for efficient natural gas splitting
- Production of solid carbon as a byproduct, which can be commercialized
- Modular design suitable for large-scale, industrial applications
- Compatibility with existing natural gas infrastructure for easy integration
- Reduced reliance on carbon capture and storage (CCS) infrastructure
- Lower cost compared to blue hydrogen production methods
- Pilot plant testing facility for ongoing reactor development and optimization